ライフサイエンスコーパス: ultrashort

1 High frequency IRE (H-FIRE) uses bursts of ultrashort (0.25-5 mus) alternating polarity pulses to p

2 gonucleotides, and we discuss the binding of ultrashort (1-4 nt) oligonucleotides that are relevant i

3 sent study was to explore the feasibility of ultrashort 10-min [(18)F]FDG Patlak imaging at 55-65 min

4 re we demonstrate space-time SPPs (ST-SPPs), ultrashort (16-fs) diffraction-free SPPs that propagate

5 t from published results in cells exposed to ultrashort (6 and 2 ns) electric fields, suggesting that

6 ere we show single-crystal diffraction using ultrashort 90 keV HEX-ray pulses generated by an all-opt

7 me, the advent of attosecond metrology using ultrashort and intense lasers has re-triggered strong in

8 of the magnetization dynamics of MTIs under ultrashort and intense optical excitation.

9 ich may break down when atoms are exposed to ultrashort and intense optical pulses.

10 ility of a novel ion activation method using ultrashort (approximately 30 fs) laser pulses as a means

11 ntinuum spectra and the production of single ultrashort attosecond laser pulse.

12 endritic level, providing a substrate for an ultrashort autoregulatory feedback loop.

13 The ultrashort Be-Be distances are achieved by affixing brid

14 at the attraction and fusion of two parallel ultrashort beams with initial powers below the critical

15 Our approach offers a pathway to control ultrashort bunches and supports, as one example, the dev

16 ere detected using focused-ion-beam-modified ultrashort cantilevers.

17 ic features, and outcome of seronegative and ultrashort CeD are inconclusive due to the few studies a

18 celiac phenotypes, that is, seronegative and ultrashort CeD.

19 r data underline the diagnostic potential of ultrashort cfDNA through classification for cancer patie

20 tables (CRAFT)) for quantitative analysis of ultrashort chain fluorinated acids.

21 Subsequently, three ultrashort chain perfluoroalkyl acids (PFAAs) were ident

22 eplacements such as chlorinated derivatives, ultrashort chain PFAAs, perfluoroalkyl ether acids inclu

23 lytical method for 56 target PFAS, including ultrashort-chain (C2-C3) and branched isomers, was devel

24 ion (<1 min) and retention and separation of ultrashort-chain (C2/C3) PFCA derivatives using H(2) car

25 Several ultrashort-chain (USC) PFASs (<=C(3)) were detected, 11

26 ounds; (2) TFA, the most extensively studied ultrashort-chain PFAA, shows a consistent upward trend i

27 ion records) of five historically overlooked ultrashort-chain PFAAs (perfluoroalkyl carboxylic and su

28 Our data mining and analysis reveal that (1) ultrashort-chain PFAAs are globally distributed in vario

29 and air over the past three decades; and (3) ultrashort-chain PFAAs are present in various organisms,

30 arding the sources and fate of TFA and other ultrashort-chain PFAAs is also reviewed.

31 unidentified concentrations, particularly of ultrashort-chain PFASs, may impact the extent of PFAS mi

32 ng-chain PFCAs, while robust quantitation of ultrashort-chain species is scarce.

33 ality focusing while retaining the broadband/ultrashort characteristics of the radiation.

34 g the temporal shape and spectral content of ultrashort, chirped pulses of radiation.

35 The Mini-Cog is an ultrashort cognitive "vital signs" measure that has not

36 This study demonstrated that an ultrashort course of Ragweed MATA MPL is efficacious in

37 ry preparations, however, are insensitive to ultrashort, degraded cfDNA.

38 These ultrashort devices exhibit excellent switching character

39 nd-to-end interactions between concentrated, ultrashort DNA duplexes-driving the self-assembly of agg

40 fers from lower accuracy and cannot sequence ultrashort DNA.

41 ab, and 26) displayed curare-like effects of ultrashort duration in rhesus monkeys.

42 A novel dual-echo ultrashort echo time (DUTE) MRI sequence was proposed fo

43 man cartilage-bone specimens at 3 T by using ultrashort echo time (TE) (UTE) and conventional pulse s

44 ontamination is a major challenge for direct ultrashort echo time (UTE) imaging of myelin in vivo bec

45 h a model-based numeric approach with use of ultrashort echo time (UTE) magnetic resonance (MR) imagi

46 l feasibility of pulmonary three-dimensional ultrashort echo time (UTE) MRI at breath holding for qua

47 Ultrashort echo time (UTE) MRI can acquire high signal f

48 round The validity of three-dimensional (3D) ultrashort echo time (UTE) MRI for the assessment of emp

49 Purpose To compare three-dimensional (3D) ultrashort echo time (UTE) MRI functional lung data to c

50 the performance of three-dimensional radial ultrashort echo time (UTE) oxygen-enhanced (OE) MRI with

51 2 signal from myelin can be detected with an ultrashort echo time (UTE) sequence.

52 were acquired using the standard DIXON- and ultrashort echo time (UTE)-based approaches.

53 MRI with ultrashort echo time can be used to image the lung paren

54 80 years) were examined with a hybrid radial ultrashort echo time magnetic resonance (MR) imaging seq

55 s of interest.Objectives: Respiratory-gated, ultrashort echo time magnetic resonance imaging was used

56 Conclusion Three-dimensional ultrashort echo time MRI in the lungs allowed for functi

57 ully automated method with three-dimensional ultrashort echo time MRI reproducibly quantified the vol

58 Conclusion In lungs with cystic fibrosis, ultrashort echo time oxygen-enhanced MRI showed similar

59 n The double-echo sliding inversion recovery ultrashort echo time sequence can generate whole-brain m

60 n time adiabatic inversion recovery-prepared ultrashort echo time sequence provided efficient water s

61 ent myelin signal contrast as well as marked ultrashort echo time signal reduction in multiple sclero

62 time and radial center-out readout (UTE, or "ultrashort echo time").

63 previously reported attempts with dual-echo ultrashort echo time, for which the Jaccard distance was

64 Background Lung MRI with ultrashort echo times (UTEs) enables high-resolution and

65 d method to generate whole-head mu maps from ultrashort echo-time (UTE) MR imaging sequences.

66 Ultrashort echo-time free-breathing MRI acquisitions wer

67 Ultrashort-echo-time (UTE) sequences have been proposed

68 Ultrashort-echo-time (UTE) sequences have been used to s

69 The algorithm was based on a dual-echo ultrashort-echo-time MR imaging sequence to calculate th

70 Ultrashort-echo-time or zero-echo-time (ZTE) pulse seque

71 Two breath-hold, coronal, three-dimensional, ultrashort-echo-time, gradient-echo sequences of the lun

72 thus improving the results obtained with the ultrashort-echo-time-based attenuation correction maps c

73 ixon-based mu map (mu mapDX) and a dual-echo ultrashort-echo-time-based mu map (mu mapUTE), which are

74 ween GUV and MD simulations, the kinetics of ultrashort, electric-field-induced permeabilization of G

75 n be used for the focus and magnification of ultrashort electron packets in the time domain.

76 xtraction capacity of 12.33 mg g(-1) with an ultrashort equilibration time of 3.5 days, suggesting th

77 By employing two ultrashort excitation laser pulses, separated in frequen

78 nt neutral tautomers of hypoxanthine exhibit ultrashort excited state lifetimes (tau < 0.2 ps), which

79 Recently developed sources of ultrashort extreme ultraviolet (XUV) pulses tuned to ele

80 The use of ultrashort femtosecond pulsed lasers to effect membrane

81 Ultrashort flashes of THz light with low photon energies

82 ions that combine this configuration with an ultrashort flying focus demonstrate the formation of a h

83 CBF), and cerebral blood volume (CBV) HRF to ultrashort forelimb stimulation in an anesthetized roden

84 ithms, and well below the threshold used for ultrashort fragments used in ancient DNA research.

85 age-based registration on reconstructions of ultrashort frames (0.6-1.8 s), after which list-mode rec

86 Our experiments exploit the intense, ultrashort hard x-ray pulses of the Linac Coherent Light

87 he integrity of the substrate because of the ultrashort heating pulse time.

88 amphiphilic compounds consisting of multiple ultrashort histidine lipopeptides on a triazacyclophane

89 combine improved combustion properties with ultrashort ignition delays as low as 1 ms.

90 etermination of macromolecules that utilizes ultrashort, intense x-ray pulses to record diffraction d

91 stantaneous flux applications, combining the ultrashort ion and laser pulse durations with their inhe

92 mic characteristics of the ions emitted from ultrashort laser interaction with materials were studied

93 In these experiments an ultrashort laser pulse (pump) is first absorbed by excit

94 smission using slow light effects and act as ultrashort laser pulse compressors.

95 The high intensity and ultrashort laser pulse duration (fs) make direct observa

96 An intense ultrashort laser pulse is used to ionize a bromine molec

97 ectronic correlations, the application of an ultrashort laser pulse often yields novel phases that ar

98 e linear polarization properties of a single ultrashort laser pulse propagating in a scattering mediu

99 An ultrashort laser pulse was used to modulate the energy o

100 With the ratio P/Pcr of the peak power of an ultrashort laser pulse, P, to the critical power of self

101 8+delta cuprate superconductor induced by an ultrashort laser pulse.

102 ion in the film is further enhanced by using ultrashort laser pulses (~1 ps) thus limiting heat flow

103 A sequence of three ultrashort laser pulses (~100 femtosecond duration) succ

104 We irradiated the vessel with high-fluence, ultrashort laser pulses and achieved three forms of vasc

105 ee text] is initiated in a controlled way by ultrashort laser pulses and tracked by means of time-res

106 Although thermal effects associated with ultrashort laser pulses are known to be reduced when com

107 The retinal response to ultrashort laser pulses at moderate energy followed a pa

108 temporally-dependent polarization states of ultrashort laser pulses can be reconstructed in a single

109 High-intensity ultrashort laser pulses focused on metal targets readily

110 ng signal with complex synthesized fields of ultrashort laser pulses for data binary encoding.

111 terest in manipulating the magnetic order by ultrashort laser pulses has thrived since it was observe

112 Ultrashort laser pulses have thus far been used in two d

113 Filamentation of ultrashort laser pulses in the atmosphere offers unique

114 For ultrashort laser pulses in the femtosecond regime, howev

115 or probing quantum superposition states with ultrashort laser pulses in the new regime where several

116 , filamentation-assisted self-compression of ultrashort laser pulses in the regime of anomalous dispe

117 Manipulation of magnetisation with ultrashort laser pulses is promising for information sto

118 Optimal spectral width and time delays of ultrashort laser pulses suppress the surface-enhanced no

119 l optical signals to design new sequences of ultrashort laser pulses that can distinguish between coh

120 ies travels at different velocities, causing ultrashort laser pulses to elongate in time while propag

121 Here, we use ultrashort laser pulses to melt the charge order in CsV[

122 nduced breakdown spectroscopy (R-FIBS) using ultrashort laser pulses was used to measure the carbon/c

123 rved on filaments that had been broken using ultrashort laser pulses, a technique allowing for very l

124 signals are inherent, such as diagnostics of ultrashort laser pulses, deciphering the complex time-de

125 ic antennae excited by sequences of coherent ultrashort laser pulses.

126 bovine eye lens tissue and tissue ablated by ultrashort laser pulses.

127 al response over a broad spectral range with ultrashort laser pulses.

128 elium via the excitation of roton pairs with ultrashort laser pulses.

129 dden states when controlled via energy-tuned ultrashort laser pulses.

130 on, laser wavelength, and peak irradiance of ultrashort laser pulses.

131 passive mode-locked laser system to provide ultrashort laser system.

132 The recently developed method of ultrashort laser-induced confined microexplosions initia

133 nanostructures enable strong localization of ultrashort light fields and have opened novel routes to

134 ast spectroscopy techniques use sequences of ultrashort light pulses (with femto- to attosecond durat

135 Stable ultrashort light pulses and frequency combs generated by

136 technological progress in the generation of ultrashort light pulses and to the development of sophis

137 at tailoring the spatiotemporal structure of ultrashort light pulses can overcome the physical limita

138 Here we use ultrashort light pulses to prepare a non-thermal distrib

139 debands are of interest for the synthesis of ultrashort light pulses with the total spectral bandwidt

140 experiments are performed using sequences of ultrashort light pulses, with photon fluxes incident on

141 ion in a single-domain BiFeO(3) thin film by ultrashort light pulses.

142 insurmountable obstacle for the formation of ultrashort light pulses.

143 ock many longitudinal modes together to form ultrashort light pulses.

144 in the emerging research area of bright and ultrashort light sources, such as free-electron lasers a

145 n data of PS II microcrystals obtained using ultrashort (< 50 fs) 9 keV X-ray pulses from a hard X-ra

146 The ultrashort (<100 base) sequences generated by this techn

147 elevance of this mutation is revealed by the ultrashort (<19 h) but robust circadian rhythms in Per2(

148 omonuclear transition metal atoms has led to ultrashort metal-metal (TM-TM) distances defined as dM-M

149 The Mn-Cr complex has an ultrashort metal-metal bond distance of 1.82 A, which is

150 ation of novel main group species containing ultrashort metal-metal distances (1.728-1.866 A) between

151 tal studies of long-distance transmission of ultrashort mid-infrared laser pulses through atmospheric

152 The spectrograms of ultrashort mid-infrared laser pulses transmitted over a

153 Here, we demonstrate filamentation of ultrashort mid-infrared pulses in the atmosphere for the

154 In our scheme, the spectral modulation of ultrashort mid-infrared pulses, induced by rovibrational

155 ission spectroscopy, we show that an intense ultrashort midinfrared pulse with energy below the bulk

156 addressed, it should be possible to generate ultrashort monoenergetic electron bunches of tunable ene

157 In unexcitable, noncardiac cells, ultrashort (nanosecond) high-voltage (megavolt-per-meter

158 We report the use of chirped ultrashort near-infrared pulses to modulate light-evoked

159 t yet been demonstrated owing to the lack of ultrashort, non-ionizing and perturbative light pulses.

160 orrelations under continuous-wave as well as ultrashort optical excitations.

161 By exciting the system with an ultrashort optical pulse and probing element-specific ab

162 Time-dependent responses of materials to an ultrashort optical pulse carry valuable information abou

163 sformation and (2) the spatial dispersion of ultrashort optical pulse, which are traced with simple c

164 Furthermore, it is shown that intense ultrashort optical pulses can induce ultrafast bandgap o

165 Four distinct, mutually coherent, ultrashort optical pulses were used to create coherent e

166 reated in a gallium arsenide quantum well by ultrashort optical pulses.

167 ic applications and shaping and manipulating ultrashort optical pulses.

168 opagation in both time and space to generate ultrashort optical pulses.

169 fapentine + isoniazid (1HP) is an effective, ultrashort option for tuberculosis prevention in people

170 onal patterns that can be performed by using ultrashort overlapped pump and dump pulses with properly

171 The bent ultrashort peptide ligand coordinates with Ag(+) metal i

172 The new structural classes of ultrashort peptides that exhibit potent microbicidal act

173 f time, while product quantification yielded ultrashort perfluoropropionic acid (PFPrA) and short pol

174 ver, no significant difference was found for ultrashort PFAS, indicating the need for groundwater pro

175 ple bacterium are excited with two identical ultrashort phase-locked pulses, producing two exciton wa

176 o most reported afterglow agents, even after ultrashort photoirradiation for only 3 s.

177 n accessibility is significantly enriched in ultrashort plasma cfDNA fragments from healthy individua

178 ing and characterizing a novel population of ultrashort plasma cfDNA fragments.

179 e is robust under the on-demand injection of ultrashort plasmonic pulses, as evidenced by the observa

180 face via surface optical rectification of an ultrashort pulse after which the DC surface potential is

181 coatings to conventional optics renders them ultrashort pulse compatible and suitable for a wide rang

182 Supercontinuum (SC) generation based on ultrashort pulse compression constitutes one of the most

183 classes of photonic crystal fiber facilitate ultrashort pulse delivery for fiber-optic two-photon flu

184 Our findings exploit the ultrashort pulse duration of the free-electron laser to

185 ossible to pump new atomic X-ray lasers with ultrashort pulse duration, extreme spectral brightness a

186 and the most favoured technique at present, ultrashort pulse excitation.

187 hospholipid rearrangement that appears after ultrashort pulse exposure.

188 er that can produce a broadband spectrum and ultrashort pulse has been applied for many applications

189 did not reveal any chemical damage caused by ultrashort pulse laser ablation for analytes smaller tha

190 These results support the use of ultrashort pulse laser ablation in combination with MS a

191 Ultrashort pulse laser ablation was found to be able to

192 ces that can be generated by tightly focused ultrashort pulse laser beams.

193 It is shown here that combining ultrashort pulse laser desorption with laser postionizat

194 of pure proton beams generated at the 150 TW ultrashort pulse laser Draco.

195 Ultrashort pulse length lasers operating in the near-inf

196 The coherent band width of each ultrashort pulse needs to span at least several and pref

197 his compact and efficient device will enable ultrashort pulse sources to be integrated with systems l

198 ecoilless gamma-ray photons into a coherent, ultrashort pulse train and into a double pulse.

199 Compression of optical pulses to ultrashort pulse widths using methods of nonlinear optic

200 charge redistribution induced by an infrared ultrashort pulse.

201 e MeV-level attosecond electron bunches from ultrashort-pulse laser-solid interactions through simila

202 Ultrashort-pulse lasers with spectral tuning capability

203 st whether coherent control methods based on ultrashort-pulse phase shaping can be applied when the l

204 The dynamics of ultrashort-pulse propagation in the amplifier were analy

205 s in traditional two-photon systems based on ultrashort pulsed high-power lasers.

206 mulative temperature response of bone during ultrashort pulsed laser ablation.

207 The Al-based QSs fabricated using ultrashort pulsed laser are of two distinct surface char

208 An ultrashort pulsed laser system (tau approximately 190 fs

209 Ultrashort pulsed lasers provide uniquely detailed acces

210 lasses of laser adjuvant have been reported; ultrashort pulsed, non-pulsed, non-ablative fractional,

211 the fundamental source of optically-coherent ultrashort-pulsed radiation, with huge impact in science

212 rates, temporal broadening or compression of ultrashort pulses and complex refraction phenomena.

213 vities which can generate different types of ultrashort pulses are attractive for practical applicati

214 Stable ultrashort pulses are repeatably achieved by employing a

215 High-intensity ultrashort pulses at extreme ultraviolet (XUV) and x-ray

216 om, thus limiting the effective transport of ultrashort pulses between distant nodes of optical netwo

217 stimulation of adrenal chromaffin cells with ultrashort pulses can be modulated with interphase inter

218 ic crystal fiber delivered micro-Joule level ultrashort pulses from a high repetition rate fiber lase

219 uld be experimentally observed with existing ultrashort pulses from high-order harmonic generation or

220 Serial femtosecond crystallography using ultrashort pulses from x-ray free electron lasers (XFELs

221 ion reduction and the peak power increase of ultrashort pulses generated by all-fiber sources at a wa

222 We used ultrashort pulses in microstructured optical fibers to d

223 th, pointing to the application potential of ultrashort pulses in trace analytics.

224 promise as a means to inexpensively produce ultrashort pulses of light suitable for nonlinear micros

225 ted scattering to the condensate, generating ultrashort pulses of the condensate emission.

226 Highly intense infrared ultrashort pulses probe deep into samples and reveal sev

227 transverse and longitudinal modes to create ultrashort pulses with a variety of spatiotemporal profi

228 Mode-locked lasers (MLLs) generate ultrashort pulses with peak powers substantially exceedi

229 relations between the spectral components of ultrashort pulses with uncorrelated stochastic fluctuati

230 asers are convenient and powerful sources of ultrashort pulses, and the inclusion of a broadband satu

231 This favors the generation of ultrashort pulses, because of their larger instantaneous

232 Quantum-correlated ultrashort pulses, generated by parametric down-conversi

233 ables the switching between the two types of ultrashort pulses.

234 he modulation depth is enough to give stable ultrashort pulses.

235 es leads to shape-preserving multi-electrons ultrashort pulses.

236 e each individually able to explain apparent ultrashort radical lifetimes in P450 catalysis, but they

237 female vocal signals function as a means of ultrashort-range communication that shapes mouse social

238 The ultrashort separation distance electrophoretic assays de

239 dealing with highly degraded DNA samples or ultrashort sequencing reads.

240 a quantum nanoelectronic system by injecting ultrashort single-electron plasmonic pulses into a 14-mi

241 In plasma, ultrashort single-stranded cfDNA (uscfDNA, ~50 nt) has b

242 Ultrashort, single-walled carbon nanotubes (US-tubes), p

243 8; 18-30 years) followed a 90 min laboratory ultrashort sleep-wake cycle (60 min wake/30 min sleep) f

244 Here we demonstrate generation of ultrashort SOT pulses that excite Larmor precession at a

245 n and control of coherent electron motion in ultrashort spatiotemporal scales.

246 structure reveals a perpendicularly arranged ultrashort stem I containing a K-turn and an elongated s

247 tors are complex and elusive as it occurs on ultrashort sub-100-fs timescales.

248 Single-walled carbon nanotubes (SWCNTs) and ultrashort SWCNTs (US-SWCNTs) were functionalized with d

249 ppress water signals and to allow imaging of ultrashort T2 protons of myelin in white matter using a

250 The remaining ultrashort T2 signal from myelin can be detected with an

251 cles provided evidence for direct imaging of ultrashort-T2 myelin protons using the UTE sequence.

252 studied outside cellular environments using ultrashort tailored light pulses(1-5).

253 (repetition time msec/TE msec, 2000/15) and ultrashort TE (300/0.008, 6.6, echo-subtraction) sequenc

254 ctors of the presence of signal intensity on ultrashort TE images, whereas the disk was the only pred

255 Ultrashort TE imaging, unlike proton density-weighted SE

256 On ultrashort TE MR images, intact disk/uncalcified CEP/cal

257 tification of sources of signal intensity at ultrashort TE MR imaging provides opportunities to poten

258 patella were chosen for correlation between ultrashort-TE bicomponent analysis, histopathologic grad

259 Short T2* water fraction derived from ultrashort-TE imaging with bicomponent analysis correlat

260 Ultrashort-TE imaging with bicomponent analysis showed t

261 n cadaveric patellae were evaluated by using ultrashort-TE imaging, spin-echo imaging, histopathologi

262 each patella by using bicomponent fitting of ultrashort-TE signal decay.

263 cells had altered telomeres; some cells had ultrashort telomeres, suggesting a highly differentiated

264 ge repulsion between electrons and reach the ultrashort temporal resolution, an improvement of orders

265 s") with atomic-scale spatial resolution and ultrashort temporal resolution.

266 However, the ultrashort time and length scales associated with the be

267 noscale artificial photosynthetic systems in ultrashort time domains.

268 to enable the capture of multiple images at ultrashort time intervals for a single microscopic dynam

269 mong the anharmonically coupled bonds on the ultrashort time scale and energy redistribution and diff

270 es share many universal features, such as an ultrashort time scale and weak-dependence on temperature

271 Ultrashort time scales allow time-resolved characterizat

272 acial screening on electron transfer (ET) at ultrashort time scales is theoretically investigated on

273 Further, TA in ultrashort time scales show a maximum at longer waveleng

274 charge separation and recombination down to ultrashort time scales was studied by investigating the

275 of a single, same particle on nanometer and ultrashort time scales.

276 Three-dimensional quantitative ultrashort time-to-echo contrast-enhanced imaging was us

277 d photoinduced molecular deformation and its ultrashort timescale.

278 We detected a few possible ultrashort-timescale events (with timescales of less tha

279 pulation of the magnetization, preferably at ultrashort timescales, has become a fundamental challeng

280 alable silicon photonic circuits and provide ultrashort timing jitter of 18 ps.

281 ructures and energetics of excited-states on ultrashort to very long timescales (210 references).

282 Because of the ultrashort tracer half-life and high positron energy of

283 while providing low contact resistivity and ultrashort transfer length on wafer scales.

284 the electron beam phase space for achieving ultrashort undulator synchrotron radiation suitable for

285 the triad Trp/Cys-Cys through absorption of ultrashort UV laser pulses.

286 ub-10 nm indium-tin-oxide transistor with an ultrashort vertical channel as low as ~3 nm, using sodiu

287 onal covalent organic frameworks (COFs) with ultrashort vertically aligned nanofluidic channels that

288 nsion of optical quantum memory protocols to ultrashort wavelengths possible, thereby establishing qu

289 Conclusion: Ultrashort whole-body [(18)F]FDG Patlak imaging is feasi

290 Here, we used ultrashort x-ray free-electron laser pulses to image cha

291 Femtosecond laser excitation and an ultrashort x-ray probe is used to show the temporal sepa

292 o reach extremely high photon numbers within ultrashort X-ray pulse durations and is leading to a par

293 nts an alternative, relying on scattering an ultrashort X-ray pulse off a single molecule before it d

294 Diffraction-before-destruction imaging with ultrashort X-ray pulses can visualize non-equilibrium pr

295 Here we demonstrate how ultrashort X-ray pulses combined with coincident ion ima

296 oscillations) can generate highly-brilliant ultrashort X-ray pulses using a comparably simple setup.

297 d N-methylmorpholine through scattering with ultrashort X-ray pulses.

298 lastic X-ray scattering (RIXS) with a stable ultrashort X-ray source such as an externally seeded fre

299 he past 15 years, making the best use of new ultrashort X-ray sources including table-top or large-sc

300 ated feasibility of nose fMRI by using novel ultrashort/zero echo time (TE) MRI.